Safety manual.bfp a8006f

SAFETY MANUAL
BFP-A8006-F
MITSUBISHI ELECTRIC CORPORATION
MITSUBISHI ELECTRIC INDUSTRIAL ROBOT

NOTE TO THE USER
1. AS FOR THE ASSURANCE OF SAFETY IN
DESIGN AND CONSTRUCTION OF ROBOT
SYSTEM, READ THIS MANUAL FIRST.
2. PLEASE MAKE SURE THAT THIS MANUAL
IS DELIVERED TO END USERS FOR THEIR
IMPLEMENTATION OF SAFETY.
3. DON’T USE ROBOTS IN A POTENTIALLY
EXPLOSIVE ATMOSPHERE.
•ANY PART OF THIS PRINT MUST NOT BE REPRODUCED IN ANY FORM WITHOUT
PERMISSION.
•THIS PRINT IS SUBJECT TO CHANGE WITHOUT NOTICE.
COPYRIGHT(C) 1999-2009 MITSUBISHI ELECTRIC CORPORATION

Note: This symbol mark is for EU countries only.
This symbol mark is according to the directive 2006/66/EC Article 20 Information
for end-users and Annex II.
Your MITSUBISHI ELECTRIC product is designed and manufactured with high quality materials
and components which can be recycled and/or reused.
This symbol means that batteries and accumulators, at their end-of-life, should be disposed of
separately from your household waste.
If a chemical symbol is printed beneath the symbol shown above, this chemical symbol means
that the battery or accumulator contains a heavy metal at a certain concentration. This will be
indicated as follows:
Hg: mercury (0,0005%), Cd: cadmium (0,002%), Pb: lead (0,004%)
In the European Union there are separate collection systems for used batteries and
accumulators.
Please, dispose of batteries and accumulators correctly at your local community waste
collection/recycling centre.
Please, help us to conserve the environment we live in!
Notes about the Europe new battery command (2006/66-/EC)

Transportation Precaution
The United Nations’ Recommendations on the Transport of Dangerous Goods must be observed for trans-
border transportation of lithium batteries by air, sea, and land.
The lithium batteries (A6BAT, ER6, Q6BAT) used in Mitsubishi industrial robots contain less than 1 g of lithium
and are not classified as dangerous goods. However, if the quantity of lithium batteries exceeds 24 batteries
for storage, etc., they will be classified as Class 9: Miscellaneous dangerous substances and articles. Ship-
ping less than 24 batteries is recommended to avoid having to carry out transport safety measures as the
customer’s consignor. Note that some transportation companies may request an indication that the batteries
are not dangerous goods be included on the invoice. For shipping requirement details, please contact your
transportation company.

Waste Management
When disposing of this product, it is necessary to give consideration to the effective use of resources, waste
handling and cleaning, and the collection and disposal of fluorocarbon. Please dispose of this product ac-
cording to the waste management law of the country where it is used.
1. Effective Use of Resources
(1) Please recycle the old product as much as possible.
(2) For recycling purposes, we recommend disassembling this product into iron scrap and electrical parts,
so that they can be sold to appropriate vendors.
2. Waste Handling and Cleaning
(1) Please try to sell the old product for recycling in order to reduce the amount of waste material.
(2) When disposing of this product, please do so according to the requirements of the appropriate
industrial waste laws.
Disposing of batteries and used grease by the customer will cause environment contamination.
3. Collection and Disposal of Fluorocarbon
(1) Handle the coolant inside the heat radiation fins used for heat dispersion in the power supply unit
(converter unit) and the driving units (inverter unit, amplifier unit) appropriately, according to the
designated fluorocarbon collection and disposal regulations.
The applicable products that use fluorocarbon are the following units built in the CR4, CR7, CR8 and CR9
controllers manufactured in or before 2002.
emanledomtinU emanledomtnaloocdegrahC
581ot73-VC-B-SDM
b141CFCH
54ot02-1V-B-SDM
09ot07-1V-B-SDM
321CFCH
5354ot0102-2V-B-SDM
2Vehtdna,sedomL41Vdna41Vehtsedulcniledom1VehT:etoN
.ledom42Vehtsedulcniledom

■ Revision history
Date of print Specifications No. Details of revisions
JUN.1999 BFP-A8006-* First print.
NOV.2000 BFP-A8006-* Error in writing correction.
OCT.2002 BFP-A8006-B Error in writing correction.
JAN.2004 BFP-A8006-C Error in writing correction.
MAY.2004 BFP-A8006-D Robot System Safety Precautions was added.
SEP.2008 BFP-A8006-E "Notes about the Europe new battery command was added.
SEP.2009 BFP-A8006-F The EC Declaration of Conformity was changed.
(Correspond to the EMC directive; 2006/42/EC)

Contents
1. Preface ............................................................................................................................................................. 1
2. Fundamental concept of safety measures ....................................................................................................... 2
2.1 Purpose, application ................................................................................................................................ 2
2.2 Operating environments .......................................................................................................................... 2
2.3 Safeguarding ........................................................................................................................................... 4
2.3.1 Prevention of hazards in automatic operation ................................................................................ 4
2.3.2 Safeguarding in programming ........................................................................................................ 5
2.3.3 Safeguarding in maintenance and trouble shooting ....................................................................... 6
2.3.4 Verification of safety before starting operation ............................................................................... 6
3. Safety considerations in each operation .......................................................................................................... 7
3.1 Unpacking................................................................................................................................................ 7
3.2 Carrying ................................................................................................................................................... 7
3.3 Preparation of installation and operation ................................................................................................. 7
3.3.1 Robot arm, controller and control panel ......................................................................................... 7
3.3.2 Cables ............................................................................................................................................ 8
3.3.3 Hands ............................................................................................................................................. 9
3.3.4 Teaching pendant ........................................................................................................................... 9
3.3.5 Grounding .................................................................................................................................... 10
3.3.6Emergency stop ............................................................................................................................ 10
3.3.7 Safety stop ................................................................................................................................... 10
3.3.8 Indicators...................................................................................................................................... 10
3.3.9 Isolation of power sources ........................................................................................................... 10
3.3.10 Applying power ............................................................................................................................11
3.4 Teaching and programming ....................................................................................................................11
3.5 Program verification ............................................................................................................................... 12
3.6 Automatic operation ............................................................................................................................... 12
3.7 Maintenance .......................................................................................................................................... 13
3.8 Trouble shooting .................................................................................................................................... 14
3.9 Modifications .......................................................................................................................................... 14
3.10 Disposal ............................................................................................................................................... 14
4.Safeguarding ................................................................................................................................................... 15
4.1 Safeguard .............................................................................................................................................. 15
4.2 Awareness means ................................................................................................................................. 16
5. System documentation................................................................................................................................... 16
6. Training .......................................................................................................................................................... 16
7. Degree of danger and damage, and indications ............................................................................................ 17

A. Examples of safety protection device configuration ...................................................................................... 18
A-1. Safety protection device configuration methods .................................................................................. 18
A-1-1. Stop functions............................................................................................................................. 18
A-1-2. Safety protection functions ......................................................................................................... 18
A-1-3. Safety protection measures........................................................................................................ 19
A-2. Examples of safety protection device configuration ............................................................................. 20

1
1. Preface
Nowadays, indusrial robots have been widely introduced to many production lines and are estimated to increase
more and more in the future. This is owing to many merits of industrial robots that conventional machines don't
possess. Industrial robots, in place of human, can do elaborate jobs without saything. They can also continue to
work in hazardous conditions for human without taking a rest.
On the contrary, industrial robots could act peculiar hazards against human if sufficient precautions were not pro-
vided. Industrial robots may give rise to hazards of injuring operators or damaging equipment.
We who have given created them must do our best to make them work safely toprevent such accidents. However,
after they are shipped, safeguarding measures must be taken by the system integrators and/or the end users as well.
This manual is intended to give general precautions and safeguarding to secure safety of all persons who are
involved in the robots. Before introduction, installation, arrangement and so on of the robots, please read through
this manual as well as the operation manual of the robot itself to be able to operate them safety and eficiently.
The fundamental idea of this manual bases on the following 'EC directive', 'International standard', and 'European
norm', provisions of which are cited frequently through this manual. Refer to these documents if necessary.
• Machine directive : 89/392/EEC, 91/368/EEC, 98/37/EC, 2006/42/EC
• ISO 10218 (1992) : Manipulating industrial robots - Safety
• BS7228 Part6 (1992) : Recommendations for safety
Applicable Models
This manual is targeted for the following model series.
• A/S Series
• T Series
• SD/ SQ series
*This manual is original

2
2. Fundamental concept of safety measures
This section explains the fundamental concept of safety that should be under stood by all persons who use robots.
2.1 Purpose, application
We have developed industrial robots to contribute to economic activities, human health and safety by improv-
ing productivity, flexibility, and quality of manufacturing industry, as well as by securing safety in hazardous
operation.
Therefore, we request users to understand our intention and never to make use of robots for purpose against
above intention.
Typical applications of robots in manufacuturing industry have included, for example, parts assembling, test-
ing, machining, loading and unloading palletizing, sealer dispensing, painting, soldering brazing and deburring.
In other applications such as education, and even amusements, robots are now being used.
However, applications of robots will not be limited to those above. If you make a use of a robot in a new
application, particular attention should be paid in order to assess the risks on your own responsibility, because a
different application may involve different hazards and different levels of risks. (e.g. handling of explosive or
flammable material, harmful laser light beam, radioactive ray, poisonous chemicals, and biologically harmful
microbe.)
2.2 Operating environments
The operating environments of a robot can affect its lifetime, function, performance, and safety. If the operating
environments of a robot do not satisfy the following conditions, appropriate means should be taken to prevent
the robot from being exposed to such undersirable conditions.
(1) Power supply
(a) The line voltage must be within 10% of the rating.
(b) The duration period of an instantaneous power failure must be within 15 milliseconds.
(c) The power supply must provide enough electricity needed at the maximum consumption.
–Recommendation
a larger transformer ; a stabilized power supply ; an UPS
(2) Electromagnetic noise
(a) The surge voltage applied to a line must be less than 1000V, and its duration period must be within 1µs.
(b) The robot must be isolated from a large-sized inverter, a high-frequency osillator, a large-sized contactor,
and a welding machine, where intense electromagnetic is generated.
–Recommendation
a noise-cut transformer ; a noise filter; reinforcement of ground lines and electromagentic shields ;
isolation by keeping away from noise sources ; reduction of noise level of emission.
(3) Static electricity
(a) Where static electricity exceeding 4kV could be directly applied on the robot body or controller. Or
where static electricity exceeding 8kV could be applied through airborne electrical discharge.
–Recommendation
prevention from storing static electricity ; discharging of static electricity

3
(4) Temperature, humidity
(a) The ambient temperature nust be with in the rated range. (between 0˚C and 45˚C for M series, between
0˚C and 40˚C for E series)
(b) The robot must be kept away from direct sunlight and any heat source.
(c) The relative humidity must be within the rated range. (between 45% and 85%, non-condensing)
–Recommendation
a local heating or cooling equipment ; a heat-resistant jacket ; isolation by keeping away from a heat
source ;
NOTE: Countermeasure is needed against static electricity in low humidity and dewdrop in
high humidity.
(5) Atmosphere
(a) No dust, no oil mist, and no corrosive gas must be contained in the atmosphere.
(b) No metal shavings and conductive material must scattered.
(c) No combustible and explosive gas must be contained in the atmosphere.
–Recommendation
The oil mist proof types are recommended. Use the dust or an oil mist resistant jacket.
NOTE: Never use robots in a combustible or explosive atmosphere.
Install the controller in a shielded enclosure if used in a bad atmosphere, as the
controller itself has openings for cooling.
(6) Liquid
(a) Water and other liquid must not splash a robot and a controller directly.
(b) Any portion of a robot and a controller must not be dipped in water and other liquid.
(7) Vibration
(a) The vibration and shock must be 3.5G at maximum during transportion.
(b) The vibration and shock must be 0.5G at maximum during normal use.
–Recommendation
Enforcement of rigid packing and shock absorbing.
(8) Radioactive ray
(a) The radioactive ray must not be more than a permitted level of ordinary person.
–Recommendation
isolation from and of a radioactive source
(9) Air pressure
(a) The height above sea level should not be more than 1000m. The robot can not work in vacuum.
–Recommendation
giving pressure to reach to 1 atmosphere

4
2.3 Safeguarding
2.3.1 Prevention of hazards in automatic operation
If the operation of an industrial robot can give rise to hazards of impact, trapping, or flying objects released
by the gripper, methods for protection of person(s) must be taken using fixed guards or fences.(see figure 1)
It is obvious that if an operator does not enter into a safeguarded space, no hazard of impact nor trapping will
occur. Therefore, the separation of any person from any robot by creating a safeguarded space and a re-
stricted space is one of the fundamental principles of safeguarding.
In other words, the principle prohibits a person from entering the safeguarded space during automatic opera-
tion. Further, the interlock must be installed so that the guard remains locked closed or opening the guard
gives a stop instruction during automatic operation.
In addition to a guard and a fence, a presence sensing device that detects any intrusion into a space, or
awareness means that provides a signal to persons of an approaching or present hazard may be used.
Fig. 1 Example of restricted space and safeguarded space
Definitions in above figure
Limit region : Max. region limited with mechanical stoppers, etc.
Max. region : Max. movement region of robot, including hand installed on end, etc.
Safety protection region : Region protected with safety fence, including limit region
Restricted space
Safeguard
Robot
Maximum space
Safeguarded space

5
2.3.2 Safeguarding in programming
Some maintenance and programming personal are at times required to be within the restricted space while
power is available to the machine actuators for teaching, program verification, maintenance, and trouble
shooting.
On the other hand, it is recognized that operatinal characteristics of robots can be sigbificantly different
from those of other machines and equipment. Robots are capable of high energy movements through a large
volume beyond the base of robots. The pattern and initiation of movement of the robot arm are difficult to
predict and can vary because of variables in product and environmental conditions.
Therefore, the elimination of hazards or at least their reduction must be carried out during interventions in
the safeguarded space while power is available to the machine actuators. Accordingly, a design of the robot
system such as to allow the maximum number of tasks to be performed from outside the safeguarded space
must be involved. However, if some task requires personnel to be within the safeguarded space, provision of
compensatory means of safety must be taken instead of suspending safeguards.
If serveral robots are installed in a safeguarded space to constitute a certain system, each robot and device
must be designed and installed so that each can be controlled independently.
An example of an interference mistake by the robot and peripheral device such as the workpiece, which
may occur easily during teaching, is shown for reference in Fig. 2. Here, (A) is interference during move-
ment with joint interpolation, (B) is interference caused by an incorrectly set movement destination position
No., and (C) is interference caused by an incorrect hand grip open/close setting.
Fig.2 Example of work mistake during teaching
(A)
Joint interpolation
Linear interpolation
Peripheral device
P1
P1
P2
P2
P3
P4
Peripheral device
Work piece
Grip
Hand
(B)
(C)

6
2.3.3 Safeguarding in maintenance and trouble shooting
When entering the safeguarded space for inspection, repair, cleaning, and maintenance, be sure to stop the
robot and shut down the power supply with placing a lock and/or tag on the energy isolating device to
prevent unwilling operation. When an intervention within the safeguarded space while power is available to
the the robot is required, appropriate safe working procedures must be used to prevent a sudden motion of a
robot and a careless operation of peron.
2.3.4 Verification of safety before starting operation
Prior to the use in nomal operation, ensure the proper operation of the robot and the robot system. If any
damage or malfunction that may lead to an accident is found, required corrections must be completed and
retesting must be performed.
Be sure that all system emergency stop devices remain functional.

7
3. Safety considerations in each operation
This section refers to the general precautions in each operation from unpacking to trouble shooting of robot
system. Prior to the actual use of a robot, be sure to read relating items in the attached operation manual together
with this safety manual.
3.1 Unpacking
(1) The robot and the controller are packed separately in a corrugated cardboard for shipment. Be sure to obey
the unpacking procedure indicated outside the corrugated cardboard.
(2) When taking the robot out of shock absorbers, never hold resin covers. If you hold these covers, they may
be damaged.
(3) Keep the used corrugated cardboards and the used shock adsorbers for the secondary transportation in
future.
3.2 Carrying
(1) Confirm the weight on the rated nameplate before transporting the robot arm.
(2) If the robot arm weighs 30kg or less, two workers must carry the robot while holding the unit at the
bottom. If transportation handles are provided, use these handles when transporting. Always leave the
robot arm arm fixing plate installed during the transportation work.
(3) When transporting the robot arm, prepare even-length wires that can sufficiently withstand the robot
weight. Pass these wires through the designated eye bolts, and suspend the robot with a crane. Always
leave the robot arm arm fixing plate installed during the transportation work.
(4) When putting the robot or the controller on an installing base or a pushcart, don't apply an excessive shock
and an excessive vibration to the robot and the controller.
(5) When transportiong the robot after installed, be sure to release brakes of the robot arm and from the pose
the same as the shipping pose. Don't carry or transport the robot with its arm extended.
(6) When putting the robot on an installing base temporarily, fix the robot with one or more bolts to prevent
from falling down.
(7) When transporting the open cooling structure controller, as a general rule, two workers must insert their
hands into the clearance at the bottom from the front side and back side. Make sure that excessive force
is not applied on the switches, terminal block, connectors, or heat radiating fin, etc.
(8) Many resin covers are used on the exterior surface of the robot. Never hold these parts and never apply
forces to them. If you carry the the robot by holding these covers, that may cause hazards of damaging
covers and eventually dropping the robot.
(9) Before transporting the robot, the arm fixing plate must be installed.
3.3 Preparation of installation and operation
3.3.1 Robot arm, controller and control panel
(1) When installing the robot arm, secure the area required for the work based on the layout design before-
hand. At the same time, provide a sufficient clearance so that the robot's movable sections and periphery
do not catch or collide. If the robot requires the origin to be set, make sure that there is no interference
with the periphery in the origin setting posture.

8
(2) If thr limitation of range of motion is required by the plan, please consult with us in advance. Only the
range of J1 axis can be limited at some fixed points. Alternative method of limiting the range of motion
may be provided only if they are designed, constructed, and installead to achieve the same level of safety
as the mechanical stops. This may include using the limit switches according to IEC 204-1.
(3) Install the controller and control panel starting device where the entry of operators in the safety protection
region (inside the safety fence) can be confirmed from the operator control position.
(4) If the working areas of robots overlap each other, provide interlock functions to prevent the robots from
simulataneously entering their common area.(position detecting switches, etc.)
(5) When the safeguarding methods are not in place prior to commissioning and functional testing, interim
means of designating the restricted space must be in place before proceeding.
(6) When it is intended that operators will perform manual operations associated with the robot, such as
loading and unloading of parts, this must be taken into account in the arrangement of the robot system,
either by providing loading devices so that the operator cannot access the hazardous area, or by providing
appropriate safeguards for the manual activity.
(7) Securely fasten the robot to the robot to the specified installing surface with four fastening bolts being
careful to prevent deviation of the position. The installing base requires enough stiffness to withstand the
weight of the robot and the reaction force.
(8) Remove the arm fixing plate before operating the robot.
(9) When using ceiling suspension or wall hanging installation methods, a jig allowing use of a standard lift,
etc., is available from Mitsubishi. Please consult with your dealer for more information.
(10) Install the controller outside the safety protection region (outside the safety fence). Install the controller's
operation panel so that the operator can monitor the robot without facing his/her back to the robot, and at
a height where the panel can be operated easily. (For maintenance workability, set the operation panel
height at 0.6m or more.)
(11) Install the controller on a level surface. Be sure not to prevent the heat fin from radiating heat and the fan
from ventilating hot air. The ambient temperature of the controller must be within the rated range.
(12) If the controller must be fixed to prevent dropping or movement, etc. from external vibration, always fix
on the base surface. (Do not remove the rubber legs.)
(13) When installing the robot, the controller and the peripheral equipment, take mens of access into account
to allow access in safety to all areas used for production, adjustment and maintenance operations.
(14) Do not get on or hang from the robot.
(15) Do not get on or place heavy objects on the controller.
(16) Make sure that foreign matter does not enter the robot arm or controller. Entry of conductive matter such
as screws or metal pieces, or the entry of flammable matter such as oil could lead to ruptures or damage,
etc.
3.3.2 Cables
(1) Tighten the connectors of the cables between the robot and the controller according to the instructions of
the manual.
(2) Don't pull or bend the cables with force. Protect the cables with ducts or covers if necessary.
(3) When installing ducts or covers, means should be taken to prevent persons from stumbling, and caution
signs should be indicated necessary.
(4) Keep the robot machine cables and the external I/O cable away from other cables such as power cables
and earth lines. Be sure that the externai I/O cable is shielded.
(5) Do not mistake the terminal connections. Failure to observe this could lead to ruptures or damage, etc.
(6) Do not mistake the polarity (+, -). Failure to observe this could lead to ruptures or damage, etc.
(7) When moving the robot on a slide rail, never use standard machine cables of the robot due to the poor
resistance against bending. In this case, be sure to use flexible machine cables of the robot prepared as
options.

9
(8) Before connecting the powere source line, be sure that the voltage of the power is within the rated range
and the power switch of the controller is off. Then connectit to the correct portion.
(9) Do not connect or disconnect the cables or connectors while the power is ON.
3.3.3 Hands
(1) When using the optional motor-operated hand or the pneumatis hand, follow the instructions of the manual.
Be sure that the total weight including workpieces is within the rated load.
(2) If necessary, attach the specially machined picking tool to the end of the hand accrding to the shape of
workpieces. Be sure that the tool has no sharp edges nor projections except functionally necessary por-
tions.
(3) When fixing a customer-made hand, be sure that the total weight including workpieces is within the rated
load. Especially, when fixing an unbalanced hand, the rated torque of the wrist axes should also be taken
into account.
(4) When attaching a customer-made hand to the flange of the robot, fiz it securely with specified bolts. Be
sure that the hand has no sharp edges nor projections except functionally necessary portions, and provide
covers and other protections as necessary.
(5) If cables and hoses are connected to the hand, prevent cables and hoses from getting twisted round or
damaged and from restricting the motion of the robot.
(6) When using a pneumatic hand, supply clean air which pressure is within 0.7MPa{7kgf/cm2
} as the pres-
sure higher than this may lead to a breakage of the internal pneumatic pipe in the robot arm.
(7) If there is the possibity of a hand releasing a workpiece during motion thus causing a hazardous condi-
tions, necessary means should be taken for the gripping mechanism of the hand to prevent such hazards.
(8) The hand must be designed and constructed so that power failure does not cause release of the load or
result in a hazardous condition. To keep the opening or closing state of a pneumatic hand even when the
electric power fails, make use of a double solenoid to control the hand.
(9) Grasping a workpiece charged with static electricity could cause malfunctioning due to electrical-dis-
charge through the hand and robot arm. Thus, always use an insulated structure for the hand and robot
arm. When a charged workpiece is placed, the device on which is it placed could malfunction due to the
electrical-discharge. Always structure the system so that the charged workpiece's charge is discharged
with an appropriate electrical-discharge route.
(10) Power for the confirmation sensor is supplied to the hand check cable enclosed with the robot (or op-
tional). If the cable end cannot be treated sufficiently due to this, the end could contact the peripheral
device or robot arm while the power is turned ON, and could lead to short circuit accidents. Thus, always
treat the end when using the hand check cable.
3.3.4 Teaching pendant
(1) Tighten the connector of the teaching pendant cable. Don't pull or bend the cable with force.
(2) Determine the area where the teaching pendant is stored, and prevent the pendant from being carelessly
dropped thus causing malfunction or damage.

10
3.3.5 Grounding
(1) Be sure to ground the robot and the controller electrically according to the instructions of the manual. The
grounding is indispensable to prevent electric shock, to reduce electrostatic charges, to improve electric
noise resistance, and to reduce electromagnetic interference.
(2) Use a wire of more than 2 mm2
in cross section, and make its length as short as possible.
(3) The robot and the controller should be grounded separately. Keep the ground points away from those of
other large electric equipment.
3.3.6Emergency stop
(1) Install the manual emergency stop switch near the robot where it can be operated easily. Connect it to the
external emergency stop terminal on the controller. (Always close B type contact, provided with a me-
chanical lock function. Complaint with IEC204-1 specifications.) When there are multiple installation
places, install multiple switches. Refer to the instruction manual for the electrical specifications.
(2) Install a switch on the safety protection devices, such as the safety fence door. Provide an interlock
mechanism so that the robot will enter the emergency stop state if the switch is activated. (Example : The
emergency stop state is entered when the safety fence door is opened during robot operation.)
(3) In the case of the complex robot system designed to work togrther, emergency stop devices should stop
not only the robot itself but also all relating equipment if its continued operation can be dangerous. In this
case, for example, an emergency switch that has more than one contacts is desirable.
3.3.7 Safety stop
(1) Install the stop switch near the robot where it can be operated easily. Connect it to the external input/
output terminal on the controller. When there are multiple installation places, install multiple switches.
Refer to the instruction manual for the electrical specifications.
(2) Do not install the stop switch on the safety protection devices, such as the safety fence door. Install an
emergency stop switch on the safety protection device.
(3) Do not enter the safety protection region (inside the safety fence) in the stopped state.
3.3.8 Indicators
(1) Pertinent information should be provided such as clealy indicating robot working modes and displaying
the reason for unprogrammed robot stop. For this purpose, use the dedicated I/O bits of the controller.
(e.g. run, wait, reset, error)
(2) Where the risk may arise by a fault in the operation of unsupervised machinery, the machine must be
equipped to give an appropriate acoustic or light signal as a warning.
3.3.9 Isolation of power sources
(1) Each robot system must have means to isolate each of its power soures by manual operation.
(2) Isolation must be either visible (visible interruptionof continuity in the power supply) or visibly ensured
by permitting a check of the position of the operating control on the isolating unit, and it must be made
clear which areas of the machine are isolated.
(3) If necessary, means should be taken to lock the isolation device in the 'OFF' or 'OPEN' position to prevent
careless operation.
(4) When the power is shut down, the hand drops down more or less by itself because no brakes are installed
in the wrist axes. If this may lead to a hazardous condition, the attitude of the wrist should turn down
beforehand or the power should be shut down timely to prevent from hazardous condition.
(5) When the power to the robot is shut off, the hand, etc., may drop slightly from the time that the power is
shut off to when the brakes activate. If there is any risk of interference, etc., with the peripheral devices,
set the robot to a posture where a hazardous state will not be created before shutting off the power.

11
3.3.10 Applying power
(1) Before turning on the power supply, check that there is no person within the safeguarded space and that
tools and other pieces are not left there.
(2) Verify that the cables, hoses, and connectors are not damaged nor disconnected nor loose.
(3) Verify that the workpiece and the peripheral equipment are positioned as specified. Also verify that apply-
ing power to peripheral equipment does not result in hazardous motion.
(4) If some sequence in applying power to peripheral equipment may cause a hazardous condition, obey the
safety sequence specified in advance. (The situation is the same as in the power shut down.)
(5) After applying power, be sure to verify that emergency stop devices and other safeguards are functional.
(6) Verify that each axis of the robot moves functionally by job operation and is restricted in motion as
intended.
(7) Do not open the cover or door of controller, after turning on the power supply.
3.4 Teaching and programming
(1) Wherever possible, programming must be performed with all persons outside the safeguarded space.
When it is necessary to perform programming with personal in side the safeguarded space, safe working
procedures must be provided and observed. This includes the following items.
(a) Operation method and procedure, including authorization of operator and suspension procedure of
safeguards
(b) Speed of jog operation (Automatic operation is for bidden.)
(c) Signaling method for several workers
(d) Measure for emergency
(e) Measure to prevent malfunction
(2) Where the automatic operation can be initiated by the teaching pendant, never select the automatic mode
in the safeguarded space.
(3) When teaching inside the safety protection area (inside the safety fence), always secure the priority right
for the robot control. (Always set the controller mode switch to "Teach", and set the teaching pendant
"Enable/Disable" switch to "Enable".) Failure to so do could cause a very dangerous state as the robot
could start with external commands.
(4) The controller mode changeover switch has a key. When teaching, remove the key so that no one other
than the teacher can change the mode.
(5) Movement of other equipment in the safeguarded space which can present a hazard must either be pre-
vented or under the sole control of the programmer.
When under control of the programmer, it must require deliberate action on the part of the programmer
separate from the action to initiate robot motion.
(6) Suppress any device movement that could cause a hazard in the safety protection area (inside the safety
fence), or make sure that only the teaching operator can control the device.
(7) Assign a monitor during the teaching work so that the robot operation can be stopped immediately if any
abnormality occurs. Make sure that the operators, other than the teaching operator, inside the safety
protection area (inside the safety fence) have a portable emergency stop switch.
(8) Maintain sufficient illumination to produce an easy-to-work environment for the operstors.
(9) Be sure to mark the operators to wear proper clothing, safety shoes and helmets.
(10) As an emergency countermeasure during teaching, don't face your back toward the robot, and be sure to
maintain a passage to shelter.
(11) The programmer must return the suspended safeguards to their original effectiveness prior to initiating
automatic operation of the robot system.
(12) After completing the teaching work, validate and safety protection devices that were temporarily invali-
dated, and recovery the original function. (Example : Validate the door interlock of the safety fence, etc.)

12
3.5 Program verification
(1) After teaching and programming, always confirm the operation with step operation before starting auto-
matic operation.
(2) When confirming the operation inside the safety protection area (inside the safety fence), follow the
predetermined work procedures in the same manner as the teaching work.
(3) When a peripheral device is to start in synchronization with the I/O signal from the robot during the
confirmation, take special care to the operation. As with teaching operation, suppress any device move-
ment that could cause a hazard in the safety protection area (inside the safety fence), or make sure that
only the operator can control the device.
(4) When starting a program in the middle, be sure to avoid collision betwwn the robot and the peripheral
equipment.
(5) If a program is long-sized and intricate, print out the content of the program and examine it in advance.
Sufficient understanding is required before verfying such a program.
3.6 Automatic operation
(1) Before initiating the automatic operation, ensure that there are no exposed persons in the safeguarded
space. If it is impoossible, the control system must be designed and constructed so that an acoustic and/or
visual warning signal is given whenever the machinery is about to start. The exposed person must have
the time and the means to take rapid action to prevent the machinery from starting up. (e.g. installation of
the emergency switches inside the safeguarded soace)
(2) Before initiating the automatic operation, ensurwe that all peripheral equipment is functional and there is
no signals indicating malfunction.
(3) Always start automatic operation outside the safety protection area (outside the safety fence). Even when
resuming operation by resetting after stopping the robot with emergency stop, etc., during automatic
operation, always start outside the safety protection area (outside the safety fence).
(4) Before starting automatic operation, always confirm that the work details and selected program match.
Use low-speed operation, when possible, until the first cycle ends.(Use the speed override change func-
tion.)
(5) If any abnormality is observed in the robot or peripheral devices, stop the operation immediately. Note
that if a new risk is posed due to the position where the robot is stopped, etc., take care to the timing for
stopping the robot.
(6) If the robot stops due to an unknown cause during automatic operation, avoid approaching the stopped
robot. When the robot must be approached, input the emergency stop, or turn the main power off first.
When turning the main power off, make sure that there will be no new risk caused.
(7) When halting and resuming the program during automatic operation, make sure that there will be no new
risk with the peripheral device when the program is started. (Adequacy of work start position, necessity
of peripheral device initialization, etc.)
(8) When the modification of the program is done suring the suspension, be sure to verify the program at least
one time before initiating the automatic operation.
(9) When selecting a different operation speed with the speed override change function during automatic
operation, make sure that there will be no new risk caused. (Risk from speed that is too fast, or too slow)
(10) If a held workpiece or other object may fly out and cause a hazard by the centrifugal force during
automatic operation or by the impact force of anemergency stop, suitable means must be taken to prevent
such hazard.
(11) When an emergency stop device is activated or the power is shut down, the hand drops down more or
less by itself because no brakes are installed in the wrist axes. Also, when speed of the robot is fast, even
the axis with a brake may not stop immediately because of its remaining power of speed. Prevent the
hand from conflicting with peripheral equipment.

13
(12) If the robot collides with a workpiece or the peripheral equipment at high speed due to e.g. a program
error, then the workpiece, the peripheral equipment, the robot arm, and the reduction system of the robot
may be considerably damaged. To avoid the hazardous condition caused by the collision, particular atten-
tion should be paid to assess the risks.
3.7 Maintenance
(1) Where possible, maintenance of the robot and peripheral equipment should be performed from outside the
safeguarded space.
(2) When operations from outside the safety protection area (outside the safety fence) are not possible and the
fence must be entered, as a general rule, turn the power off first. At this time, make sure that no new risk
will be caused by turning the power off.
(3) When work must be carried out inside the safety protection area (inside the safety fence) without turning
the power off, always secure the priority right for the robot control. (Always set the controller mode
switch to "Teach", and set the teaching pendant "Enable/Disable" switch to "Enable".) Failure to so do
could cause a very dangerous state as the robot could start with external commands.
(4) If the stored energy may cause a hazardous condition after shutting down the power, means must be
provided for the controlled release of stored energy.
This energy source may be in the from of (but not limited to) fluid pressure accumulators, capacitors,
springs, counter balances, and flywheels.
Appropriate label must be affixed to each stored energy source.
(5) Do not open the controller door or cover immediately after turning the power off. Wait for the time given
in the controller and instruction manual before opening the door or cover.
(6) Be sure to place working notices on the power supply and start switches to prevent a third person from
operating them carelessly. If necessary, provide a watchman to operate the emergency stop device imme-
diately when the robot operaters unexpectedly.
(7) Securely carry out daily and periodic inspections referring to the operation manual. Regarding to the
maintenance of the robot system, observe the inspection and maintenance program of the robot system
manufacuturer. If a skilled operation is needed for the robot itself, consult with our service shop.
(8) When maintaining the controller, check the normal operation of the internal cooling fan by e.g. examining
the air flow.
(9) When the brakes are released, the robot will drop with its own weight, so make sure that there are no
operators in the robot's movable range. If there is any risk of interference, etc., with the peripheral de-
vices, set the robot to a posture where a hazardous state will not be created before releasing the brakes.
(10) A small amount of lubricating grease may ooze out of the robot arm. If the surrounding environment
could be contaminated from this grease dropping, check for grease oozing during the periodic inspection.
If any grease is oozing out, wipe it off before it contaminates the surrounding environment.
(11) For maintenance, provide a sufficient space of working and sufficient illumination to produce an easy-
to-work environment foroperators.
(12) Don't modify the robot or use any unspecified parts. Be surew to prevent modifying any safety devices.
(13) When turning on the power after completing the maintenance, ensure that the restoration of the power
does not result in hazardous condition.
(14) After completing the maintenance, the suspended safeguards must be returned to their original
affectiveness.
(e.g. interlocking guards must be functional.)
(15) Do not carry out a megger test (insulation resistance test) during the inspections.
(16) Do not short-circuit, charge, heat, incinerate or disassemble the battery.

14
3.8 Trouble shooting
(1) As with maintenance, consider whether the priority of the work can be set as (1) work outside the safety
protection region (outside the safety fence), (2) work inside the safety protection region (inside the safety
fence) with the power turned off,(3) work inside the safety protection region (inside the safety fence) with
automatic operation canceled. If work must be carried out inside the safety protection region (inside the
safety fence) always set the controller mode switch to "Teach" and set the teaching pendant "Enable/
Disable" switch to "Enable".
(2) Be sure to place working notices on the power supply and start switches to prevevt a third oerson from
operating them them carelessly. If necessary, provide a watchman to operate the emergency stop device
immediately when the robot operates unexpectedly.
(3) If an alarm occurs on the robot, first check the alarm number or error mode which is useful is useful for
trouble shooting. Record this information and refer to the corresponding pages of the manual.
(4) If the content of trouble shooting exceeds the range of the user, consult with our service shop as far as the
robot is concerned with the trouble.
3.9 Modifications
(1) Avoid modifications based on user-judgements, and use of maintenance parts other than those desighnated.
Never modify the sections related to safety, such as the emergency stop.
(2) Faults caused by modifications made by the user will not be covered by the warranty.
3.10 Disposal
(1) Treat this unit as general industrial waste.
(2) Do not disassemble the parts.
(3) Dispose of batteries according to local laws.
(4) Contact the Mitsubishi Service Dept. for collection of used grease. Disposal of used grease by the user
will pollute the environment.

15
4.Safeguarding
Safeguarding includes the use of safeguards such as interlocking guards, awareness means in addition to the safe-
guards, and safe working procedures to reduce the posibility of injury while performing an assigned task.
Here, the guidance on safeguards and awareness means are provided for customers to check their safeguarding.
4.1 Safeguard
(1) Fixed guards must be installed outside the maxcimum space of the robot.
(2) Fixed guards must be constructed to withstand foreseeable operational and wnvironmental forces.
(3) Set the fixed guard to prevent entry into the safety protection region (inside the safety fence) from entrances
other than those provided with an interlock device or presence detection device. (So that an operator cannot
climb over, go under or get over the fence.)
(4) Fixed guards must be permanently fixed in position and only be removable with the aid of a tool.
(5) Fixed guards must be free of sharp edges and projections and must not themselves be a hazard.
(6) The interlocking guards shouild be designed so that interlock prevents the robot system from automatic
operation until the guard is closed. The closure of the a deliberate action at the control station.
(7) The interlockingh guard with guard locking should be designed so that the guard remains locked closed until
the risk of injury from the hazard has passed or that opening the guard while the robot sustem is working
gives a stop or emergency stop instruction. Where the hazard cannot be eliminated immediately by power
interruption, the interlocking system must need to include a guard locking and/or a braking system.
(8) When the operator's entire body can enter the safety protection region (inside the safety fence) from the door
with interlock, install a device so that the door cannot be closed unintentionally.
(9) The interruption, re-establishment sfter an interruption of fluctuation in whatever manner of the power
supply to the safeguards must not lead to a dangerous situation.
(10) Guards and protection devices must cause minimum obstruction to the view of the production process.
(11) Guards and protection devices must enable essential work to be carried ouit on installation and/or replace-
ment of tools and also for maintenance by restricting access only to the area where the work has to be done,
if possible without the guard or protection device having to be dismantled.
(12) Reestablishing the interlocked gate or presence sensing device field must not in itself restart automatic
operation.
(13) a presence sensing device must be installed and arranged so that persons cannot enter and reach into a
hazardous area without activating tha device or cannot reach the restricted space before the hazardous con-
ditions have ceased.
(14) Barriers used in conjunction with the presence sensing device may be required to prevent persons from
bypassing the device.
(15) The operation of presence sensing device must not be adversely affected by any of the environmental
conditions for which the system was intended.
(16) Resumption of robot motion must require the removal of the sensing field interruption. This must nopt be
the control to restart automatic operation.
(17) Where laser ray equipment or other harmful ray equipment is used, guards and protection devices must
prevent any accidental radiation as well as reflecvtion and diffusion that may damage health.

16
4.2 Awareness means
(1) An awareness barrier must be constructed and installed so as to prevent inadvertent entry into the restricted
space.
(2) An awarreness signal device must be constructed and located such that it must provide a recognizable
audible or visual to persons of an approaching or presennt hazard.
(3) When awareness signals in the from of light are used warn of hazards in the restricted space, sufficient
devices must be used and licated so that the lights can be seen by all persons in the proximity of the space.
(4) Audible awareness devices must have a distinctive sound of greater intensity than the ambient noise level.
5. System documentation
The robot system documentation to be supplied by the robot system manufacturer shall contain the documents of all
the components included in the system with their identification *e.g. robot, associated equipment, safeguards(. It
shall also as a minimum include the followingh:
(1) a clear, comprehensive description of the robot system and its installation including mounting and connec-
tion to external power sources;
(2) a description of foreseeable hazardous conditions and how to avoid them;
(3) a description *including interconnecting diagrams( of the safeguards, interacting function, and interlocking
of guards with hazardous conditions particularly with interacting installation;
(4) any further instructions for use specific to the system.
6. Training
Personnal who perform maintenance or repairs on robot or robot systems must be trained in the procedures neces-
sary to perform safely the required tasks.
Therefore, the user must have an inspection and maintenance program and ensure those personnel are adewuately
trained and demonstrate competence to perform their include, but is not limited to, the following:
(1) a review of applicable standard safety procedures and the safety recommendations of the robot manufacturer(s)
and the robot system designers;
(2) a clear definition of assigned tasks and responsibility of each person;
(3) identification and ezplanation of all control devices and their functions used in performing the assigned task;
(4) identification of the hazards associated with the assigned task;
(5) the designated method(s) of safeguarding including the safe worrking procedures from the identified haz-
ards;
(6) the method for testing or otherwise ensuring the proper functioning of the safeguards and interlocks.

17
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7. Degree of danger and damage, and indications
Warning labels, corresponding to the degree of danger and damage (refer to Table 2) are attached to the robot arm
and controller. Fully understand the meaning of the warning label, and take special care when handling. Do not
remove, modify or contaminate the warning labels.
Table 2 Degree of danger and damage, and indications
Note (1) Serious injury refers to injuries with after effects such as blindness, injury, burns (high temperature,
low temperature), electric shocks, bone fracture, and poisoning, and to injuries requiring hospitaliza-
tion or long-term medical treatment.
Note (2) Injury refers to injuries, burns and electric shocks that do not require hospitalization or long-term
treatment.
Note (3) Physical damage refers to extended damage to buildings, peripheral devices or workpieces.

18
A. Examples of safety protection device configuration
A-1. Safety protection device configuration methods
A-1-1. Stop functions
The following three methods are available for the stopping methods, a basic means of safety protection.
The other stop functions(emergency stop, temporary stop, etc.) are used to judge the input signal by the software
and stop the operation. These are used to confirm the operation status, etc., but since the power is not shut off,
these do not act as stop functions for safety protection.
A-1-2. Safety protection functions
The following functions can be used for the safety protection devices.
The following functions are also available as safety protection assembled in the product. These functions are
already assembled in the teaching box, and will function as safety protection functions without special consider-
ation.
(1) Hold to run ....................... This function starts operation only when the key, etc., is pressed. Operation stops
when released.
(2) Double key pressing ........ This function validates the commands only when two keys are pressed simulta-
neously.
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19
A-1-3. Safety protection measures
Measures for safety protection using the above stop functions and safety protection functions are indicated
below, together with the correspondence to Occupational Safety and Health Laws.
Measure A : Servo OFF
Measure B : State in which emergency stop can be applied immediately (teaching pendant emergency stop,
emergency stop switch inside fence, etc.)
Measure C : Safety speed limiter, exclusive starting control (teaching pendant enable, manual mode, etc.)
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20
A-2. Examples of safety protection device configuration
An example of the safety protection device configuration is shown below.
Fig. A-1 Example of safety measures
Although not indicated in the drawing, confirmation signals are prepared for each function in the signals output
from the robot, such as the "In emergency stop" that is output when an emergency stop is applied. Create a safe
configuration by providing interlocks and displays with these signals.
Input signals that are used for recovery after the safety protection device functions and the power is shut off are
prepared. These include the "alarm reset" input signal and "servo ON" input signal. By considering the recovery
method beforehand, the robot can be operated efficiently.
(1)Example of safety protection device configuration ( A, S, T series )
Socket A Socket B
Socket B
Door Emergency stop
switch
outside fence
Emergency stop
switch
outside fence
Emergency stop
switch
outside fence
Emergency stop
switch
outside fence
2B contact specifications
(2-circuit ON, always closed)
2B contact specifications
(2-circuit ON, always closed)
External
emergency
stop system 2
External
emergency
stop system 1
Dedicated input AUTOENA
Robot controller
Emergency stop switch
inside fence
inside fence
Plug
Plug
Socket A
Socket A
Socket B
Plug
Door
K2
K1
MC2MC1
When the plug is removed from the socket A and the safety fence
door is opened, the external emergency stop is applied.
When the plug is inserted in socket B, the external emergency stop
can be canceled.
Automatic operation cannot be started when the plug is not inserted
into socket A.

3-106 Emergency stop input and output etc.
3 Controller
Fig.3-25 ： External emergency stop connection
EMGOUT1
EMGOUT2
Internal circuit structure
（Customer）（Controller）
Warning Please do not do the withstand voltage examination.
Moreover, it becomes the cause of failure if it connects incorrectly.
11A
10A
9A
8A
7A
6A
5A
4A
3A
2A
1A
EMGIN1+24V
Relay
+24V
24GND
24GND
24GND
RA
+24V
RelayRA
RelayRA
External emergency input
(prepare by customer)
Door switch input
Enabling device input
TB
EMG. stop
OP
EMG. stop
11B
10B
9B
8B
7B
6B
5B
4B
3B
2B
1B
EMGIN2
+24V
Relay
+24V
24GND
24GND
24GND
RA
+24V
RelayRA
RelayRA
6A
5A
4A
3A
2A
1A
6B
5B
4B
3B
2B
1B
Robot error output
Mode output
Add. axis contacts
control output
（AXMC1）
EMGIN pin arrangement
AWG#24～#18
(0.2～0.75mm2)Type ：2-1871940-1
EMGIN2 EMGIN1
11A
10A
9A
8A
7A
6A
5A
4A
3A
2A
1A
11B
10B
9B
8B
7B
6B
5B
4B
3B
2B
1B
EMGOUT pin arrangement
EMGOUT2 EMGOUT1
6A
5A
4A
3A
2A
1A
6B
5B
4B
3B
2B
1B
Type ：1-1871940-6
Minus driver plug
AWG#24～#18(0.2～0.75mm2)
Electric wire plug
<The connector connection>
（Customer）
Short
Short
Short
Short
External emergency input
Door switch input
Enabling device input
Robot error output
Mode output
Add. axis contacts
control output
（AXMC2）
Minus driver plug Electric wire plug
7mm
1) Remove the Sticker on the connector.
2) Remove the wire skin 7mm.
3) Push the back spring with the small standard Tip.
4) Insert the wire to the back.
5) Remove the small standard Tip.
*recommended Tip size is 1.4-2.4mm.
(The driver plug area of the connector is 2.5mm)
-: standard Tip
(2) Examples of safety protection device configuration ( SQ, SD series )
Two emergency-stop input circuits are prepared on the user wiring terminal block of the controller. ( Fig A-2 )
Create a circuit as shown below for safety measures. (Fig A-3 to Fig A-7) In addition, the figure shows the normal state
which is not in the emergency stop state.
Fig A-2
21

Fig.6-1 ： Example of safety measures （Wiring example 1）
1A/1B
2A/2B
3A/3B
4A/4B
5A/5B
6A/6B
8A/8B
9A/9B
1A/1B
2A/2B
3A/3B
4A/4B
5A/5B
6A/6B
EMGIN1/2
EMGOUT1/2
付加軸用コンタクタ
コントロール出力
内部非常停止回路
ロボットコントローラ
短絡(出荷時短絡済)
非常停止スイッチ
（2接点タイプ）
エラー出力
モード出力
周辺装置
TB非常停止
ボタン
OP非常停止
ボタン
}
RA
RA
RA
7A/7B
短絡
}
}
10A/10B
11A/11B
ロボットコント
ローラ内電源 24V
ﾄﾞｱｽｲｯﾁ入力
安全柵のドア
ｲﾈｰﾌﾞﾘﾝｸﾞ
ﾃﾞﾊﾞｲｽ入力
[Caution] Since we have omitted the information in part because of explanation, there is the section different from the
product.
<Wiring example 1>: Connect the emergency stop switch of peripheral equipment to the robot controller.
The power supply for emergency stop input uses the power supply in the robot controller.
<Operation of the emergency stop>
If the emergency stop switch of peripheral equipment is pushed, the robot will also be in the emergency
stop state.
*1)EMGIN1/2, and EMGOUT1/2 have
the two terminals separately, and
show that they are the two lines.
Always connect the two lines.
*2) 1A/1B, and 2A/2B terminal of
EMGIN is short-circuited at
factory shipments.
*3)5A/5B, and 6A/6B terminal of
factory shipments.
Notes) If "*2" and "*3" are removed,
it will be in the emergency stop
state.
*4) The emergency stop button of the
robot controller operation panel.
*5) The emergency stop button of T/
B connected to the robot
controller.
*6) Emergency stop input relay.
*1)
*2)
*3)
*4)
*5) *6)
Robot controller
Short circuit
(short-circuited)
Enabling
device
input
Short cir-
cuit
Door switch input
Short circuit
(short-circuited)
Power supply in the
robot controller 24V
(2- contact type)
Peripheral
equipment
Safety
fence door
OP
Emer-
gency
stop
button
TB
Emer-
gency
stop
button
Internal emergency stop
circuit Error output
Mode output
Contactor control
output for addi-
tional axes
Fig A-3
22

1A/1B
2A/2B
3A/3B
4A/4B
5A/5B
6A/6B
8A/8B
9A/9B
1A/1B
2A/2B
3A/3B
4A/4B
5A/5B
6A/6B
EMGIN1/2
EMGOUT1/2
未接続
エラー出力
モード出力
周辺装置
TB非常停止
ボタン
OP非常停止
ボタン
}
RA
RA
RA
7A/7B
短絡
}
}
10A/10B
11A/11B
安全柵のドア
周辺装置側電源
24V
The power supply for emergency stop input uses the power supply of peripheral equipment.
If the emergency stop switch of peripheral equipment is pushed, the robot will also be in the
emergency stop state.
factory shipments. Remove it, and
connect the power supply of
peripheral equipment.
Connect the power supply of
peripheral equipment by the
polarity shown in the figure.
*3)5A/5B, and 6A/6B terminal of
factory shipments.
Notes) Please use 5A/5B and
6A/6B terminal, connected.
*4) The emergency stop button of the
robot controller operation panel.
*5) The emergency stop button of T/
B connected to the robot
controller.
*1)
*4)
*5)
*6)
product.
Robot controller
Power supply in the
OP
Emer-
gency
stop
button
TB
Emer-
gency
stop
button
Short circuit
(short-circuited)
*3)
Door switch input Safety
fence door
Enabling
device
input
Short cir-
cuit
Error output
Mode output
Contactor control
output for addi-
tional axes
circuit
(2- contact type)
Peripheral
equipment
Power supply in the
Peripheral equipment
24V
*2)
Not connected
*2)
Fig A-4
23

1A/1B
2A/2B
3A/3B
4A/4B
5A/5B
6A/6B
8A/8B
9A/9B
1A/1B
2A/2B
3A/3B
4A/4B
5A/5B
6A/6B
EMGIN1/2
EMGOUT1/2
未接続
エラー出力
モード出力
周辺装置
TB非常停止
ボタン
OP非常停止
ボタン
}
RA
RA
RA
7A/7B
短絡
}
}
10A/10B
11A/11B
安全柵のドア
周辺装置
側電源24V
RA
監視
監視
周
辺
装
置
側
内
部
回
路
The power supply for emergency stop input uses the power supply of peripheral equipment. Monitor the
emergency stop state by the peripheral equipment side.
stop state. And, if the emergency stop switch of OP or T/B is pushed in the state of the power of robot
controller OFF, peripheral equipment state can be the emergency stop also.
connect the emergency stop
switch and power supply of
peripheral equipment. Connect the
power supply of peripheral
equipment by the polarity shown in
the figure.
*1)
*5)
*6) *7)
　 *4)
A-contact
*3)5A/5B, and 6A/6B terminal of EMGIN is short-circuited at factory shipments.
Notes) Please use 5A/5B and 6A/6B terminal, connected.
*4) Please use a A contact type of the relay with the compulsive guide.*5) The
emergency stop button of the robot controller operation panel.
*6) The emergency stop button of T/B connected to the robot controller.
product.
Robot controller
Power supply in the
OP
Emer-
gency
stop
button
TB
Emer-
gency
stop
button
*3)
fence door
Enabling
device
input
Short cir-
cuit
Error output
Mode output
Contactor control
output for addi-
tional axes
circuit
(2- contact type)
Peripheral
equipment
Power supply24V
*2)
Not connected
*2)
Monitor
Monitor
Circuit
Fig A-5
24

1A/1B
2A/2B
3A/3B
4A/4B
5A/5B
6A/6B
8A/8B
9A/9B
1A/1B
2A/2B
3A/3B
4A/4B
5A/5B
6A/6B
EMGIN1/2
EMGOUT1/2
未接続
エラー出力
モード出力
周辺装置
TB非常停止
ボタン
OP非常停止
ボタン
}
RA
RA
RA
7A/7B
}
}
10A/10B
11A/11B
安全柵のドア
ﾃﾞﾊﾞｲｽ
周辺装置
側電源24V
監視
監視
周
辺
装
置
側
内
部
回
路
RA
<Wiring example 4>: Connect the emergency stop switch, door switch, and enabling device of peripheral equipment to the robot
controller. The power supply for emergency stop input uses the power supply of peripheral equipment.
Monitor the emergency stop state by the peripheral equipment side.
*1)
*5)
*6) *7)
*3)5A/5B, and 6A/6B terminal of EMGIN is short-circuited at factory shipments.
*4) Please use a A contact type of the relay with the compulsive guide.*5) The
emergency stop button of the robot controller operation panel.
*5) The emergency stop button of the robot controller operation panel.
product.
connect the emergency stop
switch and power supply of
peripheral equipment. Connect the
power supply of peripheral
equipment by the polarity shown in
the figure.
Robot controller
Power supply in the
robot controller 24VOP
Emer-
gency
stop
button
TB
Emer-
gency
stop
button
*3)
fence door
Enabling
device
Error output
Mode output
Contactor control
output for addi-
tional axes
circuit
(2- contact type)
Peripheral
equipment
Not connected
*2)
Power supply24V
*2)
　 *4)
A-contact
Monitor
Monitor
Circuit
Fig A-6
25

<Wiring example 5>: Connect the emergency stop switch of peripheral equipment, and the door switch to two robot controllers,
and it interlocks. Connect the enabling device to the robot controller.The power supply for emergency stop
input uses the power supply of peripheral equipment. Monitor the emergency stop state by the peripheral
equipment side.
*5) The emergency stop button of the robot controller operation panel.
product.
周辺装置
の非常停止
出力
周辺装置内部
非常停止回路
周辺装置
監視
RA
1A/1B
2A/2B
3A/3B
4A/4B
5A/5B
6A/6B
8A/8B
9A/9B
1A/1B
2A/2B
3A/3B
4A/4B
5A/5B
6A/6B
EMGIN1/2
EMGOUT1/2
ロボットコントローラ　＃１
TB非常停止
ボタン
OP非常停止
ボタン
}
RA
RA
RA
7A/7B
}
}
10A/10B
11A/11B
未接続
エラー出力
モード出力
ドアスイッチ入力
イネーブリング
デバイス
安全柵のドア
ドアスイッチ出力
監視
1A/1B
2A/2B
3A/3B
4A/4B
5A/5B
6A/6B
8A/8B
9A/9B
1A/1B
2A/2B
3A/3B
4A/4B
5A/5B
6A/6B
EMGIN1/2
EMGOUT1/2
ロボットコントローラ　＃１
}
RA
RA
RA
7A/7B
}
}
10A/10B
11A/11B
未接続
エラー出力
モード出力
ドアスイッチ入力
イネーブリング
デバイス
周辺装置
の非常停止
出力
監視
RA
TB非常停止
ボタン
OP非常停止
ボタン
周辺装置
側電源24V
*1)
*2)
*7)
*2)
*4)
A-contact
*4)
A-contact
*7)
Robot controller #1
Robot controller #1
*5)
*6)
TB
Emer-
gency
stop
button
OP
Emer-
gency
stop
button
Power supply in the
Power supply in the
Not connected
Door switch input
Enabling
device
*8)
Error output
Mode output
Contactor control
output for addi-
tional axes
Safety fence door
Power
supply24V
Monitor
Circuit
Monitor
Monitor
Peripheral equipment
(4- contact type)
*1)
Not connected
Door switch input
Enabling
device
Error output
Mode output
Contactor control
output for addi-
tional axes
*1)
*2)
*8)
*5)
*6)
TB
Emer-
gency
stop
button
OP
Emer-
gency
stop
button
Internal emergency
stop circuit
Internal emergency
stop circuit
*3)
*3)
*1)EMGIN1/2, and EMGOUT1/2 have the two terminals separately,
and show that they are the two lines. Always connect the two
lines.
If necessary to stop two robots simultaneously by one emergency
stop switch please use the 4 contact type emergency stop switch.
*2) 1A/1B, and 2A/2B terminal of EMGIN is short-circuited at factory
shipments. Remove it, and connect the emergency stop switch
and power supply of peripheral equipment. Connect the power
supply of peripheral equipment by the polarity shown in the figure.
*3)5A/5B, and 6A/6B terminal of EMGIN is short-circuited at factory
shipments.
*4) Please use a A contact type of the relay with the compulsive guide.
Fig A-7
26

Authorised representative : MITSUBISHI ELECTRIC EUROPE B.V.
Gothaer Str.8,40880 Ratingen / P.O. Box 1548, 40835 Ratingen, Germany
Oct.. 2009 MEE Printed in Japan on recycled paper. Specifications are subject to change without notice.
HEAD OFFICE: TOKYO BUILDING, 2-7-3, MARUNOUCHI, CHIYODA-KU, TOKYO 100-8310, JAPAN
NAGOYA WORKS: 5-1-14, YADA-MINAMI, HIGASHI-KU, NAGOYA 461-8670, JAPAN

Safety manual.bfp a8006f

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Safety manual.bfp a8006f